When Bangladesh embarked on the Rooppur Nuclear Power Plant (RNPP) project, the discussion understandably centred on energy security, baseload power, and technological complexity. Less visible, but equally consequential, has been the transformation the project triggered in the country’s higher education system and technical workforce. RNPP is not merely a power plant under construction; it has become a catalyst for building Bangladesh’s nuclear knowledge base, institutional capacity, and skilled manpower.
This transformation did not happen automatically. It required deliberate policy choices, sustained international cooperation, and long-term investment in people. The experience of RNPP offers an instructive case of how a large infrastructure project can drive human capital development in a highly specialised and safety-critical sector.
Before Rooppur: A missing academic discipline
Until the RNPP project entered the national development agenda, nuclear engineering as an academic discipline was largely absent from Bangladeshi universities. While nuclear physics and radiation science were taught within broader physics curricula, there were no dedicated undergraduate or postgraduate programmes focused on nuclear engineering, reactor technology, or nuclear power plant operations.
This gap reflected historical realities. Bangladesh did not operate a nuclear power facility, and there was limited domestic demand for nuclear engineers. Academic institutions therefore focused on engineering disciplines aligned with existing industries.
The decision to construct RNPP fundamentally altered this equation. A nuclear power plant requires professionals trained not only in engineering fundamentals, but also in reactor physics, nuclear safety, radiation protection, quality assurance, and regulatory compliance. Unlike conventional power plants, nuclear facilities operate under internationally codified safety standards, making specialised education and continuous professional development indispensable.
Universities respond to a national need
In response, several leading Bangladeshi universities introduced nuclear engineering programmes after RNPP construction began. Institutions such as the University of Dhaka and the Military Institute of Science and Technology (MIST) launched undergraduate and postgraduate degrees focused on nuclear engineering and related disciplines.
This marked a significant institutional shift. Developing nuclear engineering curricula requires alignment with international benchmarks, access to specialised laboratories, and coordination with regulatory and industry stakeholders. These programmes emphasise core subjects such as reactor theory, thermohydraulics, radiation measurement, nuclear materials, and safety analysis.
Beyond supporting RNPP, these initiatives serve a longer-term national purpose. They embed nuclear expertise within domestic institutions, enabling knowledge retention, research capability, and professional continuity. For a newcomer to nuclear power, this academic foundation is critical not only for plant operation but also for independent regulation and safety oversight.
However, academic education alone cannot prepare engineers for the realities of nuclear power plant operation. Practical exposure to operating reactors and established safety cultures is equally essential.
MEPhI and the formation of specialised expertise
To meet this need, Bangladesh selected a cohort of talented students for advanced education at the National Research Nuclear University MEPhI in Russia during the early phase of RNPP. MEPhI is internationally recognised as a leading institution in nuclear science and engineering, with a long tradition of training professionals for nuclear power plants, research facilities, and regulatory authorities.
MEPhI’s educational model combines academic rigor with strong industry integration. Students receive intensive training in reactor physics, nuclear safety systems, radiation protection, instrumentation and control, and plant operation principles. Particular emphasis is placed on safety culture, probabilistic risk assessment, and defence-in-depth concepts, which underpin modern nuclear operations worldwide.
Importantly, the university maintains close links with nuclear research centres and operating power plants, allowing students to connect theory with real-world applications. This approach is especially valuable for countries like Bangladesh that are developing nuclear expertise for the first time.
Graduates returning from MEPhI are now contributing to the RNPP project in technical and operational roles. Their training enables them to engage effectively with complex technical documentation, interact confidently with international experts, and support safety-related decision-making. Over time, this group is expected to form a core of nationally rooted nuclear professionals.
Learning from operating nuclear power plants
Alongside academic training, Bangladeshi engineers and officials have received hands-on training at operating nuclear power plants in Russia. This practical exposure is a cornerstone of nuclear workforce development. Observing and participating in plant operations provides insight that cannot be fully replicated in classrooms or simulations.
Through this experience, Bangladeshi professionals have gained familiarity with reactor startup and shutdown procedures, routine maintenance planning, safety system testing, and emergency preparedness. They have also observed how safety culture is embedded in daily operational practices, from documentation discipline to peer verification and incident reporting.
This exposure is particularly relevant given that RNPP is being built using Russian reactor technology. Familiarity with the design philosophy and operational logic of similar plants enhances communication with vendor specialists and supports smoother commissioning and operation.
A globally relevant workforce and remittance potential
An often underappreciated dimension of this human capital development is its relevance beyond Bangladesh’s borders. Many countries planning new nuclear power plants or extending the life of existing facilities face a shortage of experienced nuclear professionals. In several cases, domestic training pipelines have weakened, while new entrants to nuclear power lack established expertise.
The workforce being developed through RNPP is well positioned in this global context. Engineers educated in internationally recognised institutions such as MEPhI, complemented by hands-on operational exposure at functioning nuclear power plants, possess skills that are both highly specialised and internationally transferable. These competencies align with globally accepted nuclear safety and operational standards rather than country-specific practices.
If supported by appropriate policy frameworks, professional certification mechanisms, and institutional credibility, Bangladesh could gradually emerge as a supplier of skilled nuclear manpower for overseas nuclear facilities and technical organisations. Employment in such roles typically commands higher wages, reflecting the responsibility and expertise required in nuclear operations.
From a national economic perspective, this creates the prospect of long-term, high-value remittance inflows. Unlike traditional labour export sectors, nuclear professionals contribute not only through remittances but also through knowledge exchange, international professional networks, and reputational capital. This represents a shift from exporting labour to exporting expertise.
Realising this potential will depend on sustaining training quality, ensuring continuous professional development, and maintaining alignment with international safety and regulatory standards. The foundation created through RNPP suggests that nuclear human capital could become a niche but meaningful component of Bangladesh’s skilled labour export portfolio in the coming decades.
Integrating education, operation, and long-term capacity
The strength of Bangladesh’s approach to RNPP lies in the integration of academic education, international training, and operational experience. University programmes provide theoretical grounding, MEPhI training deepens nuclear-specific expertise, and plant-level exposure translates knowledge into practice.
Together, these elements support not only the operation of RNPP but also the development of regulatory strength, research capability, and professional leadership. Nuclear power plants operate for several decades, requiring sustained attention to safety, ageing management, and technological adaptation. Developing local expertise early reduces long-term dependency and strengthens national ownership of safety responsibilities.
Beyond Rooppur
RNPP demonstrates how a large infrastructure project can serve as a platform for institutional learning and human capital formation when people are placed at the centre of planning. The expansion of nuclear engineering education, combined with international academic and operational exposure, represents an investment whose benefits extend beyond a single power plant.
As Bangladesh approaches the operational phase of RNPP, the challenge will be to sustain this momentum. Continued support for education, training, and professional development will be essential to ensure safety, credibility, and long-term self-reliance.
In this sense, Rooppur is not only about electricity generation. It marks Bangladesh’s entry into a knowledge-intensive sector where expertise, discipline, and institutional maturity matter as much as physical infrastructure. The true legacy of RNPP may well lie in the skilled professionals it produces, both at home and abroad.
The writer is a trainer of UCEP Bangladesh.
